HOST LIST of AVIAN BROOD PARASITES - 2 - CUCULIFORMES; Cuculidae
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The Birds (Aves) of Oromia, Ethiopia – an Annotated Checklist
European Journal of Taxonomy 306: 1–69 ISSN 2118-9773 https://doi.org/10.5852/ejt.2017.306 www.europeanjournaloftaxonomy.eu 2017 · Gedeon K. et al. This work is licensed under a Creative Commons Attribution 3.0 License. Monograph urn:lsid:zoobank.org:pub:A32EAE51-9051-458A-81DD-8EA921901CDC The birds (Aves) of Oromia, Ethiopia – an annotated checklist Kai GEDEON 1,*, Chemere ZEWDIE 2 & Till TÖPFER 3 1 Saxon Ornithologists’ Society, P.O. Box 1129, 09331 Hohenstein-Ernstthal, Germany. 2 Oromia Forest and Wildlife Enterprise, P.O. Box 1075, Debre Zeit, Ethiopia. 3 Zoological Research Museum Alexander Koenig, Centre for Taxonomy and Evolutionary Research, Adenauerallee 160, 53113 Bonn, Germany. * Corresponding author: [email protected] 2 Email: [email protected] 3 Email: [email protected] 1 urn:lsid:zoobank.org:author:F46B3F50-41E2-4629-9951-778F69A5BBA2 2 urn:lsid:zoobank.org:author:F59FEDB3-627A-4D52-A6CB-4F26846C0FC5 3 urn:lsid:zoobank.org:author:A87BE9B4-8FC6-4E11-8DB4-BDBB3CFBBEAA Abstract. Oromia is the largest National Regional State of Ethiopia. Here we present the first comprehensive checklist of its birds. A total of 804 bird species has been recorded, 601 of them confirmed (443) or assumed (158) to be breeding birds. At least 561 are all-year residents (and 31 more potentially so), at least 73 are Afrotropical migrants and visitors (and 44 more potentially so), and 184 are Palaearctic migrants and visitors (and eight more potentially so). Three species are endemic to Oromia, 18 to Ethiopia and 43 to the Horn of Africa. 170 Oromia bird species are biome restricted: 57 to the Afrotropical Highlands biome, 95 to the Somali-Masai biome, and 18 to the Sudan-Guinea Savanna biome. -
Impact of Human Activity on Foraging Flocks and Populations of the Alpine Chough Pyrrhocorax Graculus
Avocetta N°19: 189-193 (1995) Impact of human activity on foraging flocks and populations of the alpine chough Pyrrhocorax graculus ANNE DELESTRADE Centre de Biologie des Ecosystèmes d'Altitude, Université de Pau, 64000 Pau, France. Present address: Institut d'écologie, CNRS URA 258, Université Pierre et Marie Curie, 7 qua i St Bernard, 75252 Paris, France. Abstract - The Alpine Chough Pyrrhocorax graculus is a social corvid which uses food provided by tourist activities in mountain regions (e.g. at ski stations, refuse dumps, picnic areas). In order to determine the impact ofthe human food supply on the Alpine Chough, foraging flock size and distribution were studied in a tourist region in the Northern French Alps between 1988 and 1992. Alpine Chough attendance at tourist sites was closely related to human activities. Activity rhytbrn was influenced by human presence on picnic area in summer. Relations to human activities held at a seasonal scale (such as opening of a ski station) but not at a daily time scale (such as weekend). Long term trends of Alpine Chough populations since intense tourist development at altitude are discussed with regard of flock size counts recorded at a same site before and after intense tourist development. Introduction a little studied species, and it is particularly uncertain whether Alpine Chough populations have increased Availability of food is a factor which influences the since the intense development of tourist activities in distribution and abundance of species at a range of mountains. spatial and temporal scales. Many bird species forage The aims of this study were (1) to determine whether in human related habitats (Murton and Wright 1968), the Alpine Chough adapted its foraging behaviour to and food supplied by man (e.g. -
Bird Damage to Pistachios
The extent of damage to pistachios by some birds that knock nuts to the ground, where they hull, shell, and eat them, can be measured. Losses to birds that pluck nuts from the tree and fly off to eat them else- where can only be estimated. counties to the south. District I1 (Central) is Merced, Madera, Fresno, and Kings Bird damage to nistachios counties. District I11 (Northern) is Monte- rey, San Benito, Inyo, and all counties to the north of Merced County. Terrell P. Salmon 0 A. Charles Crabb 0 RexE.Marsh Scope of the problem We received 105 responses (23 percent) from the 458 surveys mailed. Thirteen (12.7 percent) were excluded from analy- Crows are the primary culprits sis, because the orchards represented followed by ravens and jays were not in production, were outside Cali- fornia, or were managed by another per- son. The remaining 92 indicated they had pistachio losses due to one or more bird species. Bird damage was widespread through- out the state, as indicated by surveys re- turned from 18 counties. These 18 coun- ties represent 98 percent of the bearing pistachio acreage in California. The infor- mation we report here is based on the sur- vey returns and does not account for bird Various bird species are pests to a step in defining the problem and evaluat- damage and control that undoubtedly oc- number of California crops. Nut crops ing current bird control methods. cur but were not reported. Our estimates such as pistachios, almonds, and walnuts The major focus of the survey was to should therefore be considered conserva- are particularly hard hit, although infor- identify the bird species involved, the ex- tive. -
7. Sudd Marshes Management Tools
k r o w t e N GIS Based Decision Support Tool g n for Sustainable Development i d l of SUDD Marshes Region i (SUDAN) u B y t i c a p a C n i s a B e l i N GIS Based Decision Support Tool for Sustainable Development of SUDD Marshes Region (SUDAN) “Key knowledge” By Mohamed El Shamy Eman Sayed Mamdouh Anter Ibrahim Babakir Muna El Hag Yasser Elwan Coordinated by Prof. Dr. Karima Attia Nile Research Institute, Egypt Scientific Advisor Prof. Roland K. Price UNESCO-IHE Dr. Zoltan Vekerdy ITC 2010 Produced by the Nile Basin Capacity Building Network (NBCBN-SEC) office Disclaimer The designations employed and presentation of material and findings through the publication don’t imply the expression of any opinion whatsoever on the part of NBCBN concerning the legal status of any country, territory, city, or its authorities, or concerning the delimitation of its frontiers or boundaries. Copies of NBCBN publications can be requested from: NBCBN-SEC Office Hydraulics Research Institute 13621, Delta Barrages, Cairo, Egypt Email: [email protected] Website: www.nbcbn.com Images on the cover page are property of the publisher © NBCBN 2010 Project Title Knowledge Networks for the Nile Basin Using the innovative potential of Knowledge Networks and CoP’s in strengthening human and institutional research capacity in the Nile region. Implementing Leading Institute UNESCO-IHE Institute for Water Education, Delft, The Netherlands (UNESCO-IHE) Partner Institutes Ten selected Universities and Ministries of Water Resources from Nile Basin Countries. Project Secretariat Office Hydraulics Research Institute – Cairo - Egypt Beneficiaries Water Sector Professionals and Institutions in the Nile Basin Countries Short Description The idea of establishing a Knowledge Network in the Nile region emerged after encouraging experiences with the first Regional Training Centre on River Engineering in Cairo since 1996. -
Pica (Pica) Bottanensis in India
PRŷS-JONES & RASMUSSEN: Black-rumped Magpie 71 The status of the Black-rumped Magpie Pica (pica) bottanensis in India Robert P. Prŷs-Jones & Pamela C. Rasmussen Prŷs-Jones, R. P., & Rasmussen, P. C., 2018. The status of the Black-rumped Magpie Pica (pica) bottanensis in India. Indian BIRDS 14 (3): 71–73. Robert P. Prŷs-Jones, Bird Group, Department of Life Sciences, Natural History Museum, Akeman St, Tring, Herts HP23 6AP, UK. E-mail: [email protected] [RPP-J] Pamela C. Rasmussen, Department of Integrative Biology and MSU Museum, Michigan State University, East Lansing, MI 48864, USA; Bird Group, Department of Life Sciences, Natural History Museum, Akeman St, Tring, Herts HP23 6AP, UK. E-mail: [email protected] [PCR] Manuscript received on 01 February 2018. he presence of the Eurasian Magpie Pica pica (sensu lato) in India (Praveen within Native Sikkim, any such records having et al. 2016) is predominantly based on the well-documented occurrence of more probably been a mistake for southern Tthe race bactriana in the north-western Himalayas east to northern Himachal Tibet,” (Meinertzhagen 1927: 371). There is Pradesh (Rasmussen & Anderton 2012; Dickinson & Christidis 2014). However, thus a clear contradiction between his own the question as to whether the taxon bottanensis may additionally occur, or have writings and the existence of his specimen, occurred, in Sikkim has recently resurfaced as a result of a comprehensive molecular from which we deduce that he most likely phylogenetic study of the genus Pica by Song et al. (2018), who recognised Pica (p.) stole the specimen later, relabelling it without bottanensis to be an anciently diverged and distinctive lineage. -
The Gambia: a Taste of Africa, November 2017
Tropical Birding - Trip Report The Gambia: A Taste of Africa, November 2017 A Tropical Birding “Chilled” SET DEPARTURE tour The Gambia A Taste of Africa Just Six Hours Away From The UK November 2017 TOUR LEADERS: Alan Davies and Iain Campbell Report by Alan Davies Photos by Iain Campbell Egyptian Plover. The main target for most people on the tour www.tropicalbirding.com +1-409-515-9110 [email protected] p.1 Tropical Birding - Trip Report The Gambia: A Taste of Africa, November 2017 Red-throated Bee-eaters We arrived in the capital of The Gambia, Banjul, early evening just as the light was fading. Our flight in from the UK was delayed so no time for any real birding on this first day of our “Chilled Birding Tour”. Our local guide Tijan and our ground crew met us at the airport. We piled into Tijan’s well used minibus as Little Swifts and Yellow-billed Kites flew above us. A short drive took us to our lovely small boutique hotel complete with pool and lovely private gardens, we were going to enjoy staying here. Having settled in we all met up for a pre-dinner drink in the warmth of an African evening. The food was delicious, and we chatted excitedly about the birds that lay ahead on this nine- day trip to The Gambia, the first time in West Africa for all our guests. At first light we were exploring the gardens of the hotel and enjoying the warmth after leaving the chilly UK behind. Both Red-eyed and Laughing Doves were easy to see and a flash of colour announced the arrival of our first Beautiful Sunbird, this tiny gem certainly lived up to its name! A bird flew in landing in a fig tree and again our jaws dropped, a Yellow-crowned Gonolek what a beauty! Shocking red below, black above with a daffodil yellow crown, we were loving Gambian birds already. -
Magpie Jay General Information and Care
Magpie Jay General Information and Care: Black Throated Magpie Jays (Calocitta colliei) and White Throated Magpie Jay (Calocitta formosa) are the only two species in their genus. Black Throated Magpie Jays are endemic to Northwestern Mexico. The range of White Throated Magpie Jays lies to the south, overlapping with Black Throats slightly in the Mexican states of Jalisco and Colima, and running into Costa Rica. Both of these birds are members of the family Corvidae. Magpie Jays are energetic, highly intelligent animals and need to be kept in a large planted aviary - not just a cage. These birds are highly social and are commonly found in the wild as cooperative nesters. They are omnivores and favor a great variety of fruits, insects, small rodents, and nuts. A captive diet that works well in my aviaries is a basic pellet low iron softbill diet such as Kaytee’s Exact Original Low Iron Maintenance Formula for Toucans, Mynas and other Softbills. A bowl of this is in the cage at all times and is supplemented with nuts, fruits and veggies like apples, papaya, grapes, oranges, peas and carrots and the occasional treat of small mice and insects like meal worms, crickets, megaworms, and waxworms are relished by the birds. Extra protein is essential if you want these birds to breed. Fresh water should always be provided. I use a shallow three to four inch deep, twelve inch wide crock the birds can drink from and bath in. The birds you are receiving from my aviaries are hand fed and closed banded. How recently they were weaned will affect how tame they are at first. -
Azure-Winged Magpie Onaga (Jpn) Cyanopica Cyana
Bird Research News Vol.6 No.6 2009.6.24. Azure-winged Magpie Onaga (Jpn) Cyanopica cyana Morphology and classification Flock: Azure-winged Magpies live in a flock in the breeding and non- Classification: Passeriformes Corvidae breeding seasons, holding their flock territory throughout the year (Hosono 1989). In breeding period they roost in a flock except for Total length: 366.8mm (319-390) Wing length: 130.7mm (122-141) females incubating eggs and nestlings. In Nagano Pref., for instance, Tail length: 214.8mm (192-240) Culmen length: 25.7mm (24-30) the mean flock and home range sizes were 23 birds (9-45) and 21.8 ha Tarsus length: 33.3mm (32-35) Weight: 83.4g (69-96) (11-48), respectively in Kawanakajima (Hosono 1968), 28.7 birds and 135.1ha (103-243) in Ina, and 16.7 birds and 287.6 ha (130-376) in Measurements by Kuzu (1942). Nobeyama (Imanishi 2003). In Saitama Pref., on the other hand, they Appearance: were 24 birds (17-31, n = 16) and 13.4ha (6.2-24.8, n = 11) respec- Azure-winged Magpies are similar in tively in Tokorozawa, where Azure-winged Magpies are assumed to plumage coloration in males and fe- occur in the highest density. They also roost in a flock, but more than one flock occasionally roosted together in the same site. They use as a males. Males are slightly larger than roost site a dense thicket of bamboo, a coniferous wood and a broad- females in body size. They are gray on leaved deciduous wood. A coniferous wood and a thicket of bamboo the upperpart and white or light gray were used with higher frequency in winter, but a broad-leaved decidu- on the underpart (Photo 1). -
Cooperative Breeding in Azure-Winged Magpies, Cyanopica Cyana, Living in a Region of Heavy Snowfall ’
The Condor89:835-841 0 The CooperOrnithological Society 1987 COOPERATIVE BREEDING IN AZURE-WINGED MAGPIES, CYANOPICA CYANA, LIVING IN A REGION OF HEAVY SNOWFALL ’ SHIGEMOTO KOMEDA,~ SATOSHI YAMAGISHI,~ AND MASAHIRO FUJIOKA Department of Biology, Faculty of Science,Osaka City University,Sumiyoshi-ku, Osaka 558, Japan Abstract. The frequencyof occurrenceof helpers, their age and sex, and certain behavior at nests were investigated in Azure-winged Magpies, Cyanopica cyana, living in central Japan, a region of heavy snowfall. One group of 16 birds was a summer visitor and the other two groupsof about 20 birds were resident. Out of 14 nestswe observed in 1983, six had one to two helpers, one had no helper, and at the other seven we could not confirm whether helpers attended or not. Therefore, 43% to 93% of nests had helpers. One helper was known to attend at least four nests, and seven of 14 marked individuals (50%) acted as helpers.These resultsmean that cooperativebreeding occurs regularly in this population. Key words: Cooperativebreeding; helper; Corvidae;group living;feeding; plural nester: Cyanopica cyana. INTRODUCTION amples of regular cooperative breeders in cool- Cooperative breeding, which involves care of temperate zones are the Long-tailed Tit, Aegi- young by individuals other than parents, has been thalos caudatus (Nakamura 1972, 1975; Gaston reported in a few hundred avian speciesin a wide 1973), Pinyon Jay, Gymnorhinus cyanocephalus variety of taxonomic groups. Most cooperative (Balda and Balda 1978), Gray-breasted Jay, breedersoccur in tropical or subtropical regions Aphelocoma ultramarina (Brown 1970, 1972) or in temperate zones with equable climate and Acorn Woodpecker, Melanerpes formicivo- , (Grimes 1976, Rowley 1976, Woolfenden 1976, rus (Stacey 1979, Koenig 198 1, Koenig et al. -
Magnificent Magpie Colours by Feathers with Layers of Hollow Melanosomes Doekele G
© 2018. Published by The Company of Biologists Ltd | Journal of Experimental Biology (2018) 221, jeb174656. doi:10.1242/jeb.174656 RESEARCH ARTICLE Magnificent magpie colours by feathers with layers of hollow melanosomes Doekele G. Stavenga1,*, Hein L. Leertouwer1 and Bodo D. Wilts2 ABSTRACT absorption coefficient throughout the visible wavelength range, The blue secondary and purple-to-green tail feathers of magpies are resulting in a higher refractive index (RI) than that of the structurally coloured owing to stacks of hollow, air-containing surrounding keratin. By arranging melanosomes in the feather melanosomes embedded in the keratin matrix of the barbules. barbules in more or less regular patterns with nanosized dimensions, We investigated the spectral and spatial reflection characteristics of vivid iridescent colours are created due to constructive interference the feathers by applying (micro)spectrophotometry and imaging in a restricted wavelength range (Durrer, 1977; Prum, 2006). scatterometry. To interpret the spectral data, we performed optical The melanosomes come in many different shapes and forms, and modelling, applying the finite-difference time domain (FDTD) method their spatial arrangement is similarly diverse (Prum, 2006). This has as well as an effective media approach, treating the melanosome been shown in impressive detail by Durrer (1977), who performed stacks as multi-layers with effective refractive indices dependent on extensive transmission electron microscopy of the feather barbules the component media. The differently coloured magpie feathers are of numerous bird species. He interpreted the observed structural realised by adjusting the melanosome size, with the diameter of the colours to be created by regularly ordered melanosome stacks acting melanosomes as well as their hollowness being the most sensitive as optical multi-layers. -
Warm Temperatures During Cold Season Can Negatively Affect Adult Survival in an Alpine Bird
Received: 28 February 2019 | Revised: 5 September 2019 | Accepted: 9 September 2019 DOI: 10.1002/ece3.5715 ORIGINAL RESEARCH Warm temperatures during cold season can negatively affect adult survival in an alpine bird Jules Chiffard1 | Anne Delestrade2,3 | Nigel Gilles Yoccoz2,4 | Anne Loison3 | Aurélien Besnard1 1Ecole Pratique des Hautes Etudes (EPHE), Centre d'Ecologie Fonctionnelle Abstract et Evolutive (CEFE), UMR 5175, Centre Climate seasonality is a predominant constraint on the lifecycles of species in alpine National de la Recherche Scientifique (CNRS), PSL Research University, and polar biomes. Assessing the response of these species to climate change thus Montpellier, France requires taking into account seasonal constraints on populations. However, interac- 2 Centre de Recherches sur les Ecosystèmes tions between seasonality, weather fluctuations, and population parameters remain d'Altitude (CREA), Observatoire du Mont Blanc, Chamonix, France poorly explored as they require long‐term studies with high sampling frequency. This 3Laboratoire d'Ecologie Alpine study investigated the influence of environmental covariates on the demography of a (LECA), CNRS, Université Grenoble Alpes, Université Savoie Mont Blanc, corvid species, the alpine chough Pyrrhocorax graculus, in the highly seasonal environ- Grenoble, France ment of the Mont Blanc region. In two steps, we estimated: (1) the seasonal survival 4 Department of Arctic and Marine of categories of individuals based on their age, sex, etc., (2) the effect of environ- Biology, UiT The Arctic University of Norway, Tromsø, Norway mental covariates on seasonal survival. We hypothesized that the cold season—and more specifically, the end of the cold season (spring)—would be a critical period for Correspondence Jules Chiffard, CEFE/CNRS, 1919 route de individuals, and we expected that weather and individual covariates would influence Mende, 34090 Montpellier, France. -
Individual Repeatability, Species Differences, and The
Supplementary Materials: Individual repeatability, species differences, and the influence of socio-ecological factors on neophobia in 10 corvid species SUPPLEMENTARY MATERIALS 2 Figure S1 . Latency to touch familiar food in each round, across all conditions and species. Round 3 differs from round 1 and 2, while round 1 and 2 do not differ from each other. Points represent individuals, lines represent median. SUPPLEMENTARY MATERIALS 3 Figure S2 . Site effect on latency to touch familiar food in azure-winged magpie, carrion crow and pinyon jay. SUPPLEMENTARY MATERIALS 4 Table S1 Pairwise comparisons of latency data between species Estimate Standard error z p-value Blue jay - Azure-winged magpie 0.491 0.209 2.351 0.019 Carrion crow - Azure-winged magpie -0.496 0.177 -2.811 0.005 Clark’s nutcracker - Azure-winged magpie 0.518 0.203 2.558 0.011 Common raven - Azure-winged magpie -0.437 0.183 -2.392 0.017 Eurasian jay - Azure-winged magpie 0.284 0.166 1.710 0.087 ’Alal¯a- Azure-winged magpie 0.416 0.144 2.891 0.004 Large-billed crow - Azure-winged magpie 0.668 0.189 3.540 0.000 New Caledonian crow - Azure-winged magpie -0.316 0.209 -1.513 0.130 Pinyon jay - Azure-winged magpie 0.118 0.170 0.693 0.488 Carrion crow - Blue jay -0.988 0.199 -4.959 0.000 Clark’s nutcracker - Blue jay 0.027 0.223 0.122 0.903 Common raven - Blue jay -0.929 0.205 -4.537 0.000 Eurasian jay - Blue jay -0.207 0.190 -1.091 0.275 ’Alal¯a- Blue jay -0.076 0.171 -0.443 0.658 Large-billed crow - Blue jay 0.177 0.210 0.843 0.399 New Caledonian crow - Blue jay -0.808 0.228 -3.536